Superhydrophobic　surfaces　with　self-cleaning　properties　have　been　developed　based　on　roughness　on　the　micro-　and　nanometer　scales　and　low-energy　surfaces.　However,　such　surfaces　are　fragile　and　stop　functioning　when　exposed　to　oil.　Addressing　these　challenges,　here　we　show　an　ultrarobust　self-cleaning　surface　fabricated　by　a　process　of　metal　electrodeposition　of　a　rough　structure　that　is　subsequently　coated　with　fluorinated　metal-oxide　nanoparticles.　Scanning　electron　microscopy,　Fourier-transform　infrared　spectroscopy,　X-ray　photoelectron　spectroscopy,　and　X-ray　diffraction　were　employed　to　characterize　the　surfaces.　The　micro　and　nanoscale　roughness　jointly　with　the　low　surface　energy　imparted　by　the　fluorinated　nanoparticles　yielded　surfaces　with　water　contact　angle　of　164.1　degrees　and　a　sliding　angle　of　3.2　degrees.　Most　interestingly,　the　surface　exhibits　fascinating　mechanical　stability　after　finger-wipe,　knife-scratch,　sand　abrasion,　and　sandpaper　abrasion　tests.　It　is　found　that　the　surface　with　superamphiphobic　properties　has　excellent　repellency　toward　common　corrosive　liquids　and　low-surface-energy　substances.　Amazingly,　the　surface　exhibited　excellent　self-cleaning　ability　and　remained　intact　even　after　its　top　layer　was　exposed　to　SO　abrasion　cycles　with　sandpaper　and　oil　contamination.　It　is　believed　that　this　simple,　unique,　and　practical　method　can　provide　new　approaches　for　effectively　solving　the　stability　issue　of　superhydrophobic　surfaces　and　could　extend　to　a　variety　of　metallic　materials.